Amino‐modified banana nanocellulose aerogels with quick pH‐responsive switchable wettability for oil–water separation

纳米纤维素 润湿 化学工程 材料科学 化学 有机化学 复合材料 纤维素 工程类
作者
Meiling Zhang,Wenhui Hu,Ningting Guo,Pei-Ming Wu,Huiying Su,Jianhao Shao,Min Li,Jianqing Ye,Guangwei Zheng,Zhangang Wang,Yaolin Yang,Muhammad Yousif,Xupin Zhuang
出处
期刊:Journal of Applied Polymer Science [Wiley]
卷期号:141 (31) 被引量:4
标识
DOI:10.1002/app.55722
摘要

Abstract With the rapid development of the maritime industry, oily wastewater discharges and oil spills cause acute environmental challenges. Currently, cellulosic materials with switchable wettability have received increasing interest for oil–water separation. Moreover, work efficiency needs to be improved with a shorter response time. To realize these, dimethylaminoethyl methacrylate (DMAEMA) and methyltrimethoxysilane (MTMS) synthesized pH‐responsive copolymer (DMAEMA‐ co ‐MTMS) which grafted banana nanocellulose fiber made from wasted pseudostem to achieve the pH‐responsive aerogel (BCNA‐DcoM). BCNA‐DcoM exhibited hydrophilic/submerged lipophobicity under acidic conditions and hydrophobic/lipophilic under alkaline conditions. A response time of 3 s and a contact angle of 135° were shown when the mass ratio of banana nanocellulose suspension, MTMS, and DMAEMA‐ co ‐MTMS was 5:3:9. Moreover, BCNA‐DcoM possessed favorable mechanical friction properties, salt resistance (25% NaCl), compression resilience (50 cycles of compression at 60% strain), switchable wettability (>30 cycles), and highly efficient separation performance (>96%). The adsorption capacity of BCNA‐DcoM for oil is 80–184 times the initial weight of the aerogel based on the different oil densities. For practical applications, BCNA‐DcoM could continuously separate oil–water mixtures with the constant‐flow pump. The present work provides more possibilities for rapidly treating industrial oily wastewater with low‐cost and ecological banana pseudostem materials.
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